Network material architecture
Select substrate, resistor paste families, conductor system, printed sequence, protection, and any multiple sheet-resistance ranges as a compatible fired construction.
Multi-resistor custom ceramic network
Custom Thick Film Resistor Network
Custom thick film resistor networks combine multiple drawing-defined resistors, conductor interconnects, and terminals on a compact ceramic substrate. Chipsimple reviews value range, ratios, tolerance, TCR tracking, loading, trim sequence, common nodes, terminal and package format, protection, heat distribution, environment, and test strategy as one network.
- Multiple values and common nodes integrated
- Ratio and TCR tracking reviewed
- Custom shapes, leads, and terminals
- Laser-trim and network test planning
- Multi-value
- Custom network architecture
- Passive / active
- Trim routes
- 5
- Verified product views
- By network
- Final ratio release
Product Categories
From design choice to a quoted part
A drawing-controlled printed resistor network on a specified substrate, with circuit topology, terminals and any trimming operation defined for the intended electronics.
Prepare the drawing review
Send schematic and node names, target resistances and ratios, tolerances, temperature range, voltage and power per element, probe access, sample quantity and acceptance method.
Send Drawings- Absolute value or ratio
- State individual resistance limits separately from ratio accuracy. A matched network requires defined node loading and a common measurement condition.
- Power and temperature
- Provide element dissipation and surrounding heat sources. Unequal self-heating can change ratios even when room-temperature values agree.
- Trim and measurement
- Identify accessible nodes, trim direction, final load and acceptance temperature before allocating trim area.
Review with your project filesResistance and tolerance toolResistor process reviewInspection methods
Engineering reading for this purchase
- Binary-Weighted Resistor Networks: Checking Major-Carry Monotonicity
Evaluate settled code increments in a resistor-ladder conversion network using measured bit weights, explicit LSB conventions and major-carry error bounds.
- Bridge Completion Networks: What a Shunt Calibration Verifies
Calculate the exact electrical output of a known bridge shunt, define its connection and gain-check boundary, and keep electrical verification separate from mechanical sensor calibration.
- Wien-Bridge Resistor Networks: Frequency Versus Gain Requirements
Separate common and differential resistor variation in a Wien-bridge network and calculate its zero-phase frequency and feedback attenuation with the actual capacitors.
- Choosing trim access without crossing functional conductors
Engineering method for independent network trim planning: compare electrically independent trim targets with coupled-target disturbance using bounded calculations, controlled evidence, failure signatures and drawing-specific release inputs.
- Coupled Resistors: Joint Electrothermal Stability Beyond Single-Element Tests
Check whether temperature-dependent electrical power creates a growing common thermal mode when two coupled resistor channels operate together, despite stable single-channel tests.
- Thick Film Resistance Measurements: Reject Open-Lead and Compliance-Limited Readings
Separate open leads, limited excitation and genuine high resistance using controlled fixture faults, instrument status and a valid measurement record.
- Ceramic DAC Output Networks: Separate Hold-Response Droop from DC Gain Error
Check a DAC output that calibrates correctly at DC but loses amplitude at higher signal frequency. Separate the hold response, resistor gain and reconstruction filter before changing the ceramic network.
- Resistor Network Inspection: Catch a Terminal Swap Before Calibration
Use a pairwise resistance fingerprint to verify terminal identity in a thick-film resistor network before ratio calibration can conceal a connection mistake.
On this pageJump to section
Verified capability review
Quick Specifications
Custom Thick Film Resistor Network is shown against approved company capability control sheets.
Capability source: approved company category control sheets. Final values remain drawing- and sample-controlled.
| Parameter | Standard capability | Engineering review range | Final release |
|---|---|---|---|
| Substrate / Thickness | 96% / 99% Alumina / AlN; 0.25–3.0 mm | 96%/99% alumina or AlN within 0.25–3.0 mm, selected for thermal path, voltage, flatness, assembly, and firing | Approved material specification, drawing, and incoming criteria |
| Resistor System | RuO₂ / Cermet | RuO₂ or cermet selected for value, sheet resistance, TCR, load, stability, conductor, and firing compatibility | Released drawing and approved sample |
| Sheet Resistance | 1 Ω/□–1 MΩ/□ paste-family reference | Select within the 1 Ω/□–1 MΩ/□ paste-family reference after value, geometry, aspect ratio, and trim review | Released electrical limits, measurement method, and approved sample |
| Conductor System | Ag / Ag-Pd / Au | Ag, Ag-Pd, or Au selected for termination, bonding, soldering, voltage, environment, and firing | Approved material stack, assembly interface, and sample |
| Resistor Film Thickness | 8–15 µm fired typical | Within 8–15 µm fired typical, print build, firing, geometry, value distribution, and trimming are controlled | Released drawing, DFM approval, and first-article inspection |
| Firing Temperature | Up to 850°C | Peak up to 850°C; the actual profile, atmosphere, dwell, and refire sequence follow the selected paste system | Approved material-process route and production traveler |
View 6 additional engineering review checks
| Parameter | Standard capability | Engineering review range | Final release |
|---|---|---|---|
| Resistance Value | 10 Ω–10 MΩ typical | Within 10 Ω–10 MΩ typical, nominal, ratio, reference temperature, voltage, and measurement method are defined | Released electrical limits, measurement method, and approved sample |
| Resistance Tolerance | ±1% standard | ±0.5% available after paste, geometry, trim allowance, TCR, stability, and measurement review | Released electrical limits, measurement method, and approved sample |
| TCR | ±100–200 ppm/°C typical | Within ±100–200 ppm/°C typical, define temperature interval, tracking, stabilization, and measurement method | Released electrical limits, measurement method, and approved sample |
| Laser Trimming | Passive / Active | Passive or active trimming with approved kerf, cut geometry, stopping rule, test condition, and post-trim protection | Released drawing and approved sample |
| Power / Working Voltage | By geometry and thermal design | Released from geometry, substrate, heat path, ambient, duty, pulse, clearance, field grading, and protection | Approved electrical-thermal design and instrumented prototype validation |
| Protection | Glass overglaze / Passivation | Glass overglaze or passivation selected for trim access, assembly, moisture, contamination, voltage, and temperature | Approved material stack, assembly interface, and sample |
Engineering Capabilities
Network engineering starts with the schematic and error budget. Review connects paste families, resistor geometry, common nodes, conductor resistance, ratio and TCR tracking, trim order, probe access, mutual heating, terminal parasitics, protection, mounting, environment, channel measurement, and any active adjustment condition.
Schematic-to-artwork control
Release every resistor, common node, conductor, terminal, trim area, probe pad, spacing, identification, and package feature against the controlled schematic and value list.
Ratio, loading, and terminals
Define absolute values, ratios, tolerance, TCR and tracking, voltage, power by element, mutual heating, lead or pad interface, mounting, and operating condition.
Trim sequence and network test
Specify passive or active trim order, channel measurement, probe points, stabilization, ratio calculation, isolation, visual checks, environment, sampling, and acceptance limits.
Typical Applications
Custom networks reduce interconnect and footprint when the complete schematic, ratio error budget, loading, thermal coupling, package, and test route are controlled.
Application images are engineering illustrations, not customer projects, production records, or evidence of a released design. Suitability is confirmed only after the drawing, interfaces, operating conditions, risks, and validation plan are reviewed.
Application illustrationHybrid and avionics circuits
Compact matched networks require program-specific ratio, tracking, loading, bonding, protection, traceability, vibration, thermal cycling, and qualification.
Review application inputs
Application illustrationMedical instrumentation
Signal-conditioning networks need controlled ratios, drift, loading, cleanliness, assembly, calibration, documentation, and risk-based validation.
Review application inputs
Application illustrationIndustrial control modules
Networks can support sensing, biasing, attenuation, or termination after channel loading, isolation, heat, mounting, environment, and inspection are released.
Review application inputsVerified Product Views
The verified photographs show real thick film resistor networks in long, rectangular, square leaded, and round ceramic formats with printed resistor films, conductor terminals, and visible identification labels. They do not prove the marked value, internal schematic, ratios, tolerance, TCR, trim status, loading, or environmental qualification.
- Visible variety
- Several substrate shapes, resistor geometries, lead styles, terminals, and printed labels are visible.
- Label boundary
- Visible markings are sample identification and do not release production value, tolerance, or customer part status.
View 2 additional evidence boundaries
- Network boundary
- Schematic, common nodes, values, ratios, tracking, and trim sequence require controlled electrical data.
- Loading boundary
- Element power, mutual heating, voltage, drift, and lifetime depend on the package and operating conditions.
Manufacturing & Quality
Chipsimple supports resistor printing, controlled firing, laser trimming, and laboratory inspection in Dongguan.
Read the shared manufacturing-control scope
Network projects release the schematic, value and ratio table, artwork, trim order, channel test, loading, protection, sampling, traceability, and acceptance records together; matched performance requires the approved measurement conditions.
Technical FAQ
Short answers for quotation planning; released drawings and validation requirements remain controlling.
What should be defined first for a custom Custom Thick Film Resistor Network?
Provide the complete schematic, value and ratio table, tolerance, TCR and tracking requirements, common nodes, voltage and power by element, signal conditions, trim sequence, probe access, terminal or lead format, package dimensions, mounting, protection, environment, measurement order, and annual volume.
Are the quick specification values guaranteed for every design?
No. They are practical category-level selection values, not a released product specification. Material compatibility, geometry, print build, electrical loading, assembly, environment, inspection method, and expected volume can narrow the usable window. Final values are confirmed against the controlled drawing and approved project conditions.
How should Custom Thick Film Resistor Network performance be validated?
Measure every channel and required ratio under controlled voltage, probe points, stabilization, sequence, and temperature. Include isolation, trim stability, TCR or tracking, loading and mutual-heating effects, terminal integrity, environmental stress, and long-term drift when required, with released sampling and failure limits.
What should be included with an RFQ?
Send the controlled drawing or artwork, dimensions and tolerances, material preference, electrical targets, assembly interface, operating environment, validation requirements, prototype quantity, annual volume, and schedule. Include the schematic, value and ratio table, per-element loading, TCR tracking, trim order, terminals, package, and channel test sequence.
Request a Custom Thick Film Resistor Network Quote
Send the schematic and complete value, ratio, TCR, loading, terminal, package, trim, and test definitions. A useful network quotation depends on how channels interact and are measured; a list of nominal values without topology and operating conditions is not enough for release.
RFQ inputs and review sequence
- Drawing-led DFM and material-route feedback
- Prototype and repeat-production route review
- Confidential handling of customer files
- Project-specific inspection and validation planning
- Controlled schematic, artwork, common nodes, and revision
- Substrate, outline, holes, leads, pads, and package dimensions
- Value and ratio table, tolerance, TCR, and tracking
- Voltage, power, signal, duty, and mutual-heating conditions
- Trim order, probe access, measurement sequence, and stabilization
- Protection, mounting, environment, stability, and reliability tests
- Quantity, schedule, sampling, traceability, and packing
- 1We review the drawing, application, material route, and missing acceptance inputs.
- 2You receive DFM questions and a prototype route for approval.
- 3Repeat production follows the released revision, inspection plan, and packing requirement.
Submit RFQ and upload files
PDF, DWG, DXF, STEP, Gerber, ZIP, Excel, Word, or sample photos are accepted.
The drawing-upload form loads as you reach this section.